Engineering an Anaerobic Microenvironment to Empower Hydrogenase‐Catalyzed Hydrogen Therapy for Diabetic Wound Healing

ABSTRACT The inherent oxygen sensitivity of hydrogenases has limited their biomedical use. We report a hybrid peptide–nanocluster hydrogel that establishes a self‐sustained anaerobic microenvironment, enabling hydrogenase‐catalyzed hydrogen therapy under aerobic conditions. The Fmoc‐KYF peptide network traps O 2 in hydrophobic pockets, while photoexcited silver nanoclusters rapidly scavenge residual oxygen, ensuring stable hydrogen evolution. In vitro, the generated hydrogen mitigates oxidative stress and inflammation. In diabetic mice, the light‐activated system accelerates wound closure, promotes angiogenesis, and drives macrophage polarization toward a reparative phenotype. This study introduces a bioengineering strategy that integrates material design, enzyme catalysis, and photodynamics to overcome oxygen limitation and advance hydrogenase‐based therapeutic applications.

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Published
2026-01-30
DOI
https://doi.org/10.1002/agt2.70285
Primary Topic
Advanced Nanomaterials in Catalysis
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article
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article

Engineering an Anaerobic Microenvironment to Empower Hydrogenase‐Catalyzed Hydrogen Therapy for Diabetic Wound Healing

Wangzhe Li, Haishuo Ji, Chunxiao Chen, Chunqiu Zhang et al.
Aggregate
Advanced Nanomaterials in Catalysis
article

Engineering an Anaerobic Microenvironment to Empower Hydrogenase‐Catalyzed Hydrogen Therapy for Diabetic Wound Healing

Wangzhe Li, Haishuo Ji, Chunxiao Chen, Chunqiu Zhang, Junjie Li, Xueying Li, Wenjin Li, Kexin Yao, Hang Luo, Qian Peng, Baofa Sun, Yanxin Gao, Tin Pou Lai, Liyun Zhang, Qi Xiao
article en

Abstract

ABSTRACT The inherent oxygen sensitivity of hydrogenases has limited their biomedical use. We report a hybrid peptide–nanocluster hydrogel that establishes a self‐sustained anaerobic microenvironment, enabling hydrogenase‐catalyzed hydrogen therapy under aerobic conditions. The Fmoc‐KYF peptide network traps O 2 in hydrophobic pockets, while photoexcited silver nanoclusters rapidly scavenge residual oxygen, ensuring stable hydrogen evolution. In vitro, the generated hydrogen mitigates oxidative stress and inflammation. In diabetic mice, the light‐activated system accelerates wound closure, promotes angiogenesis, and drives macrophage polarization toward a reparative phenotype. This study introduces a bioengineering strategy that integrates material design, enzyme catalysis, and photodynamics to overcome oxygen limitation and advance hydrogenase‐based therapeutic applications.

AggregateVol. 7(2)
Nankai University (CN)
National Key Research and Development Program of China
Openalex Percentile: Top 73%
Advanced Nanomaterials in Catalysis
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